Strange gravitation.

The shape of gravitation is a wave motion. And because it's wave motion. That thing means that gravitation acts like all other wave motions. So when wave motion impacts particles their effect is similar to when two cars are impacting. When two objects are impacting the kinetic energy transforms to wave motion. The energy or wave motion that begins from the impact point will travel through the object which can be a car, particle, etc. 

And then that wave motion continues its movement behind the object. If impacting objects are cars people will hear that wave motion as the sound. When that impact happens at the quantum level the impacting wave motion faces the quantum field that forms the particle. And that quantum field moves backward like jelly. Then the wave motion continues to travel behind the object. 

When gravitation hits the nose of the particle the wave motion continues to travel backward of the particle. The reason for that is that energy travels always from the higher energy level to the lower energy level. And that difference between the two energy layers is called the potential difference. When wave motion travels through the quantum system it will deliver or get energy from the quantum system. And that thing causes the material would fall to the gravitational center. 

If the distance between begin and end of the object is long. That means that the system reaches a stable condition longer time. Stable condition or energy stability is the situation where begin and end of the track of the wave motion are the same. And that thing means that the energy flow in the system ends. 

Can the superstring theory explain why gravitation is so weak? 

Superstring theory describes particles as the whisk or yarn ball-looking quantum fields. The superstrings are the wave motion or quantum lightning that form the quantum field. 

The whisk-shaped form where superstrings are traveling over the poles makes the particle can have multiple quantum states at the same time. That thing means that every single superstring can have a different energy level or quantum state, 

The idea is that the gravitational radiation must travel through the superstring that is like serpentine. The catching area of the radiation is very large, but the problem is that gravitational radiation must travel through that superstring. 

When we are thinking about superstring as the paper serpentine the thickness of that paper is not very big. And there is no time to transfer information to the superstring. 

So why gravitation is the weakest of all forces? 

So why gravitation is the weakest of all forces? The answer might be easier than people ever imagine. The idea is that the wavelength of the gravitation waves is so short that the gravitation will impact the superstring. Because a superstring is extremely thin far thinner than some quarks or even gluons the energy difference between two layers is so small that the wave motion travels through that superstring causing an extremely small potential difference. 

The reason why gravitation affects long distances can be that the superstrings are very long. So the area that receives the gravitational wave is so large that it can receive enough gravitational radiation. But the depth of that superstring is so small that the potential difference between the side that is closer to the gravitation source and the side that is away from that source is very small. 

The superstring is like some kind of serpentine. The length of that thing can be very long. But the thickness of those papers is so small. The gravitational effect will affect straight through that superstring, not across it. And that means there is so little time to collect energy. 

The length of the superstring is very long. And also the width of the superstring can be large. but the thickness of that thing is so small that it makes gravitation weak. So catching area for gravitation would be large, but that radiation has a very short time to tunnel through the superstring. And that time will not give time to transfer information or energy to the superstring, 

Wave-particle duality and gravitation. 

The gravitation is the wave motion that behaves like all other wave motions. The limit of the speed of gravitational radiation is the speed of light. So gravitation can make whirls, it can reflect. 

Wave-particle duality means that the gravitation can also take the shape of the particle and otherwise.  And when two very powerful gravitational fields are impacting there is the possibility that those fields are jumping out from each other. In some wild theories, the gravitation can turn even solid if the gravitation field is powerful enough. 

https://miraclesofthequantumworld.blogspot.com/

Image: Pinterest

See also:

Black holes¨

Gravitational waves

Graviton

Standard model

Superstrings

Theory of Relativity

Wave motion

More about magnetars

More about magnetars

The extremely strong magnetic field with the quite small mass of this strange neutron star type is interesting the astronomers and other researchers. And as I wrote before there could be many reasons for the power of the magnetic field, what is about 1000 times more powerful than the regular neutron stars.

One of the explanations might be that the quite small mass of the magnetars is causing the effect, where the core of the neutron star would rotate faster than other neutron stars. The magnet field of the neutron star is forming by the same way with a generator, and the fast rotating core of the neutron star is causing the high-power magnetic field.

The rotation would happen because the material would drop to the surface of a neutron star, and because of the high-gravity level, the mass is touching the surface of the neutron stars with very high speed. And that releases very much impact energy, what is causing the heating of the mass, and also the high temperature with pressure, which is forming because the strong gravity would there also be the nuclear reactions in the material, what is touching the surface of this giant neutron.

The gravity field of this article would be extremely strong because all the mass of the star has been pressed to the particle, which is about 20 kilometers size. Sometimes some scientists have thought that the neutron star would turn to black holes in every case. But the magnetars might make an exception. Very high power bursts of gamma, X-ray and radio waves would cause that the magnetars would vaporize in a very short time. So what makes those magnetars so special?

The idea is that maybe magnetars are the collapsed stars, what mass is the border case. The star is just too big to create the white dwarf, and hardly enough to create the neutron star after the supernova. So the magnetars might be the "light neutron stars". Too heavy to be the white dwarf, but too light to create the stable neutron star, and this borderline case would create magnetar, the short-living neutron star, what might also have a goal to transform to a black hole.

Another explanation for magnetar is some of those neutron stars are collapsing to quark stars, and then to black holes. That means that there could be many types of magnetars, light and heavy versions of that phenomenon.

The radiation transforming from gamma- to X-ray tells about the change of the form of a magnetar. 

There are explanations that the magnetars would vaporize, but the changing of the radiation from gamma to X-ray tells that there would be changes in the form of the object and the changes of the energy level of those violent reactions. There have been theories that only black holes can send X-rays and the transformation of the radiation tells that the power of reactions would increase.

The X-ray impulses would tell that the magnetar is transforming into another type of object, where reactions would release even more energy than the bursts of magnetars.  And maybe the object is turning to thinner particle, what has more powerful gravity and magnet field than some neutron star.

Because "light" magnetars have the mass about 3-4 times the sun, that would make the outer layer of the neutron star rotating faster than a normal neutron star, where the gravity field would press the neutron star very thin, and that would slow the rotation speed of the outer layer. And the rotation speed of the outer layer determines how strong would the magnet field.

Even if magnetars have weaker gravity field than normal neutron stars the speed of the outer layer would increase to the levels, what we ever could imagine. And that thing causes that the star would pull plasma on its surface by using magnet field. When the material would hit to the surface, it would push the outer layer of the neutron star to rotate, and every each particle what will touch the neutron star would increase the rotation speed of this object.

When the material would touch the surface of the neutron stars, that would cause a similar fusion reaction, what happens in the normal star, but it happens on the surface of a neutron star. Then the ions would start to travel to the polar of that object, and those particles are forming electron or proton jettisons, and this is making them pulsars. But a small part of material would stay on the surface of a neutron star, and sooner or later that plack would collapse causing the thing, what is called as gamma- or X-ray bursts.